Find research datasets worth reusing

Figure 6 in Reflection of the Neogene-Quaternary phylogeography in the recent distribution limiting climatic factors of eight Mediterranean Phlebotomus species (Diptera: Psychodidae)

Figure 6. The principal component analysis result of the eight studied Phlebotomus species according to the maximum monthly precipitation value limits of the species.

Figure 10 in Reflection of the Neogene-Quaternary phylogeography in the recent distribution limiting climatic factors of eight Mediterranean Phlebotomus species (Diptera: Psychodidae)

Figure 10. The aggregated distribution of the species of the 'West-Mediterranean group' (absence: empty, presence: red fields; NUTS 3 regions).

Figure 9 in Reflection of the Neogene-Quaternary phylogeography in the recent distribution limiting climatic factors of eight Mediterranean Phlebotomus species (Diptera: Psychodidae)

Figure 9. The aggregated distribution of the species of the 'East-Mediterranean group' (absence: empty, presence: red fields; NUTS 3 regions).

Figure 1 in Reflection of the Neogene-Quaternary phylogeography in the recent distribution limiting climatic factors of eight Mediterranean Phlebotomus species (Diptera: Psychodidae)

Figure 1. Jaccard indices of countrywide sand fly diversities according to the Portugal focus, based on the eight involved Phlebotomus species.

Figure 8 in Reflection of the Neogene-Quaternary phylogeography in the recent distribution limiting climatic factors of eight Mediterranean Phlebotomus species (Diptera: Psychodidae)

Figure 8. The aggregated distribution of the species of the 'Trans-Mediterranean group' (absence: empty, presence: red fields; NUTS 3 regions).

Figure 4 in Reflection of the Neogene-Quaternary phylogeography in the recent distribution limiting climatic factors of eight Mediterranean Phlebotomus species (Diptera: Psychodidae)

Figure 4. The hierarchical cluster analysis result of the eight studied Phlebotomus species according to their presence/absence status in the studied countries (CH, Switzerland; D, Germany; I, Italy; P, Portugal; E, Spain; F, France; TR, Turkey; CY, Cyprus; BG, Bulgaria; BIH, Bosnia and Herzegovina; AL, Albania; MNE, Montenegro; GR, Greece; RO, Romania; KOS, Kosovo; HR, Croatia; SRB, Serbia; MD, Moldova; H, Hungary; MK, Macedonia.

Figure 3 in Reflection of the Neogene-Quaternary phylogeography in the recent distribution limiting climatic factors of eight Mediterranean Phlebotomus species (Diptera: Psychodidae)

Figure 3. Jaccard indices of countrywide sand fly diversities according to the Greece focus, based on the eight involved Phlebotomus species.

Figure 11 in Reflection of the Neogene-Quaternary phylogeography in the recent distribution limiting climatic factors of eight Mediterranean Phlebotomus species (Diptera: Psychodidae)

Figure 11. The geographical and climatic reconstruction maps for the European Early Late and Middle Miocene era with the mean annual temperature values according to the Neogene Climate Evolution in Eurasia model, based on the findings of Bruch et al. (2007). The yellow dashed line shows the climate border in the region of the Paratethys Sea.

opencc-by-4.0Dec 2022View details →

Data and GrADS scripts for "Changes in March mean snow water equivalent since the mid-twentieth century and the contributing factors in reanalyses and CMIP6 climate models", submitted to The Cryosphere

Data and GrADS (Grid Analysis and Display System) scripts for reproducing the figures and numerical results included in the manuscript "Changes in March mean snow water equivalent since the mid-twentieth century and the contributing factors in reanalyses and CMIP6 climate models". Revised for The Cryosphere in March 2023. In addition to the README file, there are two zipped archives: swe_trends.zip (2.3 GB) includes both the data (mostly as GrADS binaries), the GrADS data descriptor files and the scripts. swe_trends_no_data.zip (74 kB) includes just the scripts and the data descriptor files. Please see the README file for further details on the content and use of the archives.

Fig. 4.—Climatic niche overlaps A and B in Identifying regional environmental factors driving differences in climatic niche overlap in Peromyscus mice

Fig. 4.—Climatic niche overlaps A and B differed among allopatric, parapatric, and sympatric species pairs of Peromyscus mice throughout North America. Bayesian 95% highest posterior density intervals estimates showed that sympatric species pairs had higher average overlap than parapatric or allopatric pairs and that parapatric pairs had higher average overlap than allopatric pairs.

Fig. 2 in Identifying regional environmental factors driving differences in climatic niche overlap in Peromyscus mice

Fig. 2.—Species richness map derived from geographic ranges of 43 species of Peromyscus mice available in the IUCN database (NatureServe and IUCN 2018). The remaining species mostly comprise island forms with ranges too small to be visualized in this map.

Fig. 3 in Identifying regional environmental factors driving differences in climatic niche overlap in Peromyscus mice

Fig. 3.—Illustration of the relative climatic niche overlap between species pairs of North American Peromyscus mice.

Fig. 1.—A in Identifying regional environmental factors driving differences in climatic niche overlap in Peromyscus mice

Fig. 1.—A visual summary of the three distribution modes and associated scenarios of range and climatic niche overlaps between species. The blue and green colors represent two different species within a pair. In this illustration, different parts of the triangle (a mountain) will exhibit different climatic conditions. When the two species (blue and green mouse) are aligned horizontally (either on the same mountain or on separate mountains), they will experience the same climatic conditions. When one species is above the other (either on the same mountain or on separate mountains), they experience different climatic conditions.